Results 81 to 90 of about 357,564 (302)

Nuclear processes associated with plant immunity and pathogen susceptibility [PDF]

, 2015
Plants are sessile organisms that have evolved exquisite and sophisticated mechanisms to adapt to their biotic and abiotic environment. Plants deploy receptors and vast signalling networks to detect, transmit and respond to a given biotic threat by ...
Huitema, Edgar, Kulagina, Natalja, Marques Monteiro Amaro, Tiago M., Motion, Graham B.   +3 more
core   +3 more sources

CCDC80 suppresses high‐grade serous ovarian cancer migration via negative regulation of B7‐H3

Molecular Oncology, EarlyView.
PAX8 is a lineage‐specific master regulator of transcription in high‐grade serous ovarian cancer (HGSC) progression. We show for the first time that PAX8 facilitates proliferation and metastasis by repressing the cell autonomous tumor suppressor CCDC80 and inducing B7‐H3 expression.
Aya Saleh, Nitzan Medina‐Itzhaki, Milena Chekov, Eden Gal‐Swisa, Roba Gabesh‐Wahabi, Inbar Savyon, Inna Naroditsky, Hilary A. Kenny, Basem Fares, Lina Korsensky, Einav Girsh, Liron Berger, Ruth Perets   +12 more
wiley   +1 more source

Functional Analysis of Cotton Leaf Curl Kokhran Virus/Cotton Leaf Curl Multan Betasatellite RNA Silencing Suppressors

Biology, 2015
In South Asia, Cotton leaf curl disease (CLCuD) is caused by a complex of phylogenetically-related begomovirus species and a specific betasatellite, Cotton leaf curl Multan betasatellite (CLCuMuB).
Muhammad Saeed, Rob W. Briddon, Athanasios Dalakouras, Gabi Krczal, Michael Wassenegger   +4 more
doaj   +1 more source

ATXR5 and ATXR6 are H3K27 monomethyltransferases required for chromatin structure and gene silencing. [PDF]

, 2009
Constitutive heterochromatin in Arabidopsis thaliana is marked by repressive chromatin modifications, including DNA methylation, histone H3 dimethylation at Lys9 (H3K9me2) and monomethylation at Lys27 (H3K27me1).
Bernatavichute, Yana V, Cokus, Shawn, Feng, Suhua, Jacob, Yannick, Jacobsen, Steven E, Johnson, Lianna M, LeBlanc, Chantal A, Michaels, Scott D, Pellegrini, Matteo, Stroud, Hume   +9 more
core   +1 more source

E2A selectively regulates TGF‐β–induced apoptosis in KRAS‐mutant non‐small cell lung cancer

Molecular Oncology, EarlyView.
Ability to induce apoptosis by TGF‐β is frequently lost in advanced lung adenocarcinoma despite intact TGF‐β signaling. We identify E2A as a mutant KRAS–dependent mediator of resistance to TGF‐β–induced apoptosis. TGF‐β induces E2A via SMAD3 in mutant KRAS cells, and E2A silencing restores apoptosis and enhances radiation response in cell lines ...
Sergei Chuikov, Shiva Krishna Katkam, Zhefan Wang, Venkateshwar G. Keshamouni   +3 more
wiley   +1 more source

Post-Transcriptional Gene Silencing in Cultured Rice Cells [PDF]

Plant and Cell Physiology, 2000
Post-transcriptional gene silencing (PTGS) has been shown to occur in many transgenic dicotyledonous plants. Although transgene silencing has been documented in transgenic monocots, PTGS has been only recently described in monocotyledonous plants. To study PTGS in rice, we generated 25 transgenic rice cell lines in which the 35S-gus gene was stably ...
T, Kanno, S, Naito, K, Shimamoto
openaire   +2 more sources

Gene Silencing: The Mechanism to Down Regulate the Target Gene

International Journal of Bio-Resource and Stress Management, 2018
Gene silencing is one of the most efficient and promising functional genomics tools which down regulates the expression of a gene in a very precise manner and has significant impact on crop improvement.
Shreya, Ajeet Kumar Pandey, H. R. Bhandari   +2 more
doaj  

Virus and Viroid-Derived Small RNAs as Modulators of Host Gene Expression: Molecular Insights Into Pathogenesis

Frontiers in Microbiology, 2021
Virus-derived siRNAs (vsiRNAs) generated by the host RNA silencing mechanism are effectors of plant’s defense response and act by targeting the viral RNA and DNA in post-transcriptional gene silencing (PTGS) and transcriptional gene silencing (TGS ...
S. V. Ramesh, Sneha Yogindran, Prabu Gnanasekaran, Supriya Chakraborty, Stephan Winter, Hanu R. Pappu   +5 more
doaj   +1 more source

Defending the genome from the enemy within:mechanisms of retrotransposon suppression in the mouse germline [PDF]

, 2013
The viability of any species requires that the genome is kept stable as it is transmitted from generation to generation by the germ cells. One of the challenges to transgenerational genome stability is the potential mutagenic activity of transposable ...
A Aravin, A Dupressoir, A Dupressoir, A Dupressoir, A Fadloun, A Inagaki, A Inoue, A Inoue, A Meissner, A Prokhortchouk, A Puech, A Sookdeo, A Tsumura, A Vourekas, AA Aravin, AA Aravin, AA Aravin, AA Zabolotneva, AE Peaston, AR Muotri, AR Muotri, B Hendrich, BH Schrans-Stassen, C Chen, C Lu, C Popp, C-X Song, C-X Song, CE Nestor, CG Lian, CM Davis, CP Walsh, D Bourc’his, D Bourc’his, D Branciforte, D Guallar, D Haig, D Lucifero, D Lucifero, D Reiss, D Ribet, D Ribet, D Ribet, D Sproul, D Wolf, D Wolf, DA Kramerov, DC Hancks, DJ Lees-Murdock, DM Maatouk, Donncha S. Dunican, DS Dunican, DT Ting, E Beyret, E Beyret, E Khazina, E Li, EB Chuong, EL Kuff, ES Lander, F Santos, F Yang, FD Araujo, G Hutvagner, G Velasco, GD Evrony, H Cedar, H Cedar, H Heyn, H Kano, H Khan, H Kobayashi, H Stroud, HJ Cooke, HM Rowe, HM Rowe, HM Rowe, I Cantone, I Martín Caballero, I Suetake, IA Maksakova, Ian R. Adams, J Borgel, J Brennecke, J Chen, J Gimenez, J Lange, J Reichmann, J Reichmann, J Rossant, J Sharif, J Xiol, J-H Ng, JA Hackett, JA Hackett, JA Yoder, James H. Crichton, JD Lewis, JK Baillie, JL Garcia-Perez, JL Goodier, JN Athanikar, JO Kriegs, JP Reddington, JP Reddington, JP Thomson, JP Thomson, JV Moran, K Dennis, K Hata, K Hayashi, K Hisada, K Kurimoto, K Myant, K Zheng, K Zheng, KP Koh, L Jackson-Grusby, L Ma, L Piko, L Shen, L-Q Sun, LK Hutnick, M Abe, M Chotalia, M Denne, M Dewannieux, M Dewannieux, M Dewannieux, M Freitag, M Kaneda, M Kaneda, M Ko, M Ko, M Leeb, M Okano, M Reuter, M Reuter, M Ruggiu, M Saitou, M Shoji, M Tachibana, M Tahiliani, M Weber, M Wiench, M Xu, MA Carmell, Marie MacLennan, MC Ward, MM Dawlaty, MM Dawlaty, MM Karimi, MT Romanish, N Bannert, N Gilbert, N Lane, N Mathioudakis, N Reynolds, N Yang, N Zamudio, OH Tam, P Hajkova, P Hajkova, PJ Skene, Q Feng, Q Yan, R Brunmeir, R Burdick, R Fuente De La, R Illingworth, R Lister, R Rebollo, R Shukla, R Yaman, R Öllinger, RH Waterston, Richard R. Meehan, RJ DeBerardinis, RJA Frost, RR Meehan, S Chuma, S Fazio De, S Guibert, S Ito, S Ito, S Kagiwada, S Kaufmann, S Kuntz, S Kuramochi-Miyagawa, S Kuramochi-Miyagawa, S Kuramochi-Miyagawa, S Kuramochi-Miyagawa, S Mi, S Milutinovic, S Salle La, S Schütt, S Seisenberger, S Solyom, S Takebayashi, S Yamaguchi, S-H Lee, SA Smallwood, SA Trelogan, SB Rothbart, SFC Soper, SK Mahadevaiah, SL Martin, SL Martin, SL Martin, SL Mathias, SP Sripathy, SS Tanaka, ST Grivna, T Matsui, T Singer, T Tanaka, T Watanabe, T Watanabe, T Watanabe, T-P Gu, TS Macfarlan, UM Galli, V Chapman, VV Vagin, W Deng, W Filipowicz, W Seifarth, W Wei, W Yan, WA Pastor, X Cai, X Nan, Y Kato, Y Seki, Y Tao, Y Unhavaithaya, Y Yabuta, Y Yotsuyanagi, Y-Q Su, Z Li, ZD Smith, ZD Smith   +241 more
core   +2 more sources

Hijacking emergency granulopoiesis: Neutrophil ontogeny and reprogramming in cancer

Molecular Oncology, EarlyView.
Neutrophils are highly plastic innate immune cells; their functions in cancer extend beyond the tumour microenvironment. This Review summarises current understanding of neutrophil maturation and heterogeneity and highlights tumour‐induced granulopoiesis as a systemic programme that expands immature, immunosuppressive neutrophils via tumour‐derived ...
Gabriela Marinescu, Yi Feng
wiley   +1 more source